Adaptive voice communication

ABSTRACT

A system is provided for streaming media content in a vehicle. The system includes a personal media streaming appliance system configured to connect to a media delivery system and receive media content from the media delivery system at least via a cellular network. The personal media streaming appliance system operates to transmit a media signal representative to the received media content to a vehicle media playback system so that the vehicle media playback system operates to play the media content in the vehicle. Customized voice communications are generated based on receiving input, such as a user query and/or a media track change indication.

BACKGROUND

Many people enjoy consuming media content while traveling or during other activities. For example, many drivers and passengers listen to audio content, such as songs, albums, podcasts, audiobooks, and other types of audible content. Typical sources of such audio content in vehicles include radios and fixed media players, such as devices that can play media content from CDs, USB drives, or SD cards. Alternatively, mobile devices, such as mobile phones or tablets running audio streaming applications, can offer a personalized and flexible music-consuming experience using large catalogs of media content available from a media content server.

SUMMARY

In general terms, the present disclosure relates to generating customized voice communication for a media playback device user. In one possible configuration and by non-limiting example, the customized voice communication includes data relating to currently playing and/or queued media tracks. Various aspects are described in this disclosure, which include, but are not limited to, the following aspects.

One aspect is a method for generating customized voice communication for a media playback device user. The method includes receiving an input, determining a user verbosity level, obtaining metadata of a media track, obtaining peripheral data, generating a voice communication track using the user verbosity level, the metadata of the media track, and the peripheral data, and providing the voice communication track to the media playback device user. The input is a user query or a media track change indication. Receiving the input occurs before or during playback of a media track by a media playback device, where the media track is currently playing or next in a media track queue.

Another aspect is a media content playback system. The media content playback system includes one or more processing devices and a memory device. The memory device is coupled to the one or more processing devices and comprises instructions thereon that, when executed by the one or more processing devices, cause the one or more processing devices to: receive an input, determine a user verbosity level, obtain metadata of a media track, obtain peripheral data, generate a voice communication track using the user verbosity level, the metadata of the media track, and the peripheral data, and provide the voice communication track to the media playback device user. The input is a user query or a media track change indication. Receiving the input occurs before or during playback of a media track by a media playback device, where the media track is currently playing or next in a media track queue.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 illustrates an example system for streaming media content for playback.

FIG. 2 is a block diagram of an example embodiment of a personal media streaming appliance (PMSA) system.

FIG. 3 is a block diagram of an example embodiment of a media delivery system.

FIG. 4 schematically illustrates components of the example PMSA server application of FIG. 3

FIG. 5 is a block diagram of an example embodiment of a vehicle media playback system.

FIG. 6 is a block diagram of an example embodiment of a mobile computing device.

FIG. 7 schematically illustrates an example embodiment of the PMSA system.

FIG. 8 is an example method for generating customized voice communication for a media playback device user.

FIG. 9 shows example operations of the determining verbosity operation of the method shown in FIG. 8.

FIG. 10 is an example method for providing a user preferences questionnaire.

DETAILED DESCRIPTION

Various embodiments will be described in detail with reference to the drawings, wherein like reference numerals represent like parts and assemblies throughout the several views.

People spend a significant amount of time traveling in vehicles. Many of them find that time to be more enjoyable when they are listening to music, watching videos, or otherwise consuming media content. Media content includes audio and video content. Examples of audio content include songs, albums, playlists, radio stations, podcasts, audiobooks, and other audible media content items. Examples of video content include movies, music videos, television programs, and other visible media content items. In many cases, video content also includes audio content. As used herein, the term “vehicle” can be any machine that is operable to transport people or cargo. Vehicles can be motorized or non-motorized. Vehicles can be for public or private transport. Examples of vehicles include motor vehicles (e.g., cars, trucks, buses, motorcycles), rail vehicles (e.g., trains, trams), tracked vehicles, watercraft (e.g., ships, boats), aircraft, human-powered vehicles (e.g., bicycles), wagons, and other transportation means. A user can drive a vehicle or ride in as a passenger for travelling. As used herein, the term “travel” and variants thereof refers to any activity in which a user is in transit between two locations.

Consuming media content in a vehicle presents many challenges. In general, a user in a moving vehicle may have limited attention available for interacting with a media playback device due to the need to concentrate on travel related activities, such as driving and navigation. Therefore, while a vehicle is moving, it can be difficult for a user in the vehicle to interact with a media playback device without disrupting the driving or navigation. Further, the user interface of a media playback device can be overly complex, or may require such fine motor skills that it can be difficult to use while traveling in a vehicle. Voice-based user interfaces also encounter significant challenges to use in a vehicle environment. The passenger areas of a vehicle are often noisy due to engine noise, road noise, wind and weather noises, passenger noises, and the sound of any media content that may be playing on a media playback system in the vehicle. This noise hampers the ability of the voice-based user interface to interact with a user. Moreover, accessing media content while travelling may be difficult, expensive, or impossible depending on network availability or capacity along the route of travel. Further, accessing and playing media content can require significant amounts of electric power. Thus, use of a mobile device for media content playback during travel may be undesirable because it will drain the battery. It can also be challenging to connect a media playback device to a vehicle's built-in audio system because of the requirement to connect to auxiliary cables or undergo a complicated wireless pairing process. Embodiments disclosed herein address some or all of these challenges. It should be understood, however, that various aspects described herein are not limited to use of a media playback device during travel.

On the other hand, many users desire a personalized media consuming experience. For example, a user can access almost limitless catalogs of media content through various free or fee-based media delivery services, such as media streaming services. Users can use mobile devices or other media playback devices to access large catalogs of media content. Due to such large collections of media content, it is desired to make it possible to customize a selection of media content to match users' individual tastes and preferences so that users can consume their favorite media content while traveling in a vehicle.

Many vehicles include a built-in media playback device, such as a radio or a fixed media player, such as a player that can play media content from a CD, USB driver, or SD cards. However, the media content that is delivered using these built in vehicle media playback devices is greatly limited and is not flexible or customizable to the user.

Alternatively, a mobile device, such as a smartphone or a tablet, can be used by a user to enjoy personalized and flexible music consuming experience in a vehicle by running music streaming applications thereon. However, mobile devices are not well suited for use in a vehicle environment for various reasons. For example, mobile devices are not readily accessible or controllable while driving or navigating. Further, connection between a mobile device and a vehicle audio system is often inconvenient and unreliable. Moreover, the music streaming application is not automatically ready to run and play media content, and the user needs to pick up the mobile device and open the music streaming application and control a sophisticated user interface to play media content. Additionally, many users have limited mobile data available via their mobile devices and are concerned about data usage while using the music streaming application in the vehicle. Battery drainage and legal restrictions on use while driving are further drawbacks to using mobile devices for playing media content in the vehicle.

To address these challenges, the present disclosure provides a special-purpose personal appliance that can be used for streaming media in a vehicle. The appliance is also referred to herein as the personal media streaming appliance (PMSA), the smart vehicle media appliance (SVMA), the personal vehicle media streaming appliance (PVMSA), or the like. In some embodiments, the appliance is specially designed to be dedicated for media streaming purposes in a vehicle, and there is no other general use. Some embodiments of the appliance can operate to communicate directly with a media content server and receive streamed media content from the server via a cellular network. In these embodiments, other computing devices, such mobile devices, are not involved in this direct communication between the appliance and the media content server. Mobile data cost can be included in the subscription of the media streaming service or a purchase price of the personal appliance. Therefore, the customer's possible concern about mobile data usage can be eliminated. In other embodiments, the appliance can connect to another computing device, such as a mobile device, that provides a mobile hotspot to enable the appliance to communicate with the media content server rather than the appliance communicating with it directly. For example, a mobile device is used to assist in communication between the appliance and the media content server.

Further, the appliance can be associated with a user account of the user for the media streaming service so that the user can enjoy personalized media content.

In some embodiments, the appliance provides a simplified user interface so that a user can easily control playback of media content in a vehicle while maintaining his or her focus on other tasks such as driving or navigating. For example, the appliance has a limited set of physical control elements that are intuitively controllable for playback of media content with little (often only one) input from a user. Examples of such physical control elements include a rotatable knob and one or more physically-depressible buttons.

Further, in some embodiments, the appliance is configured to be easily mounted to an interior structure of a vehicle, such as a dashboard, so that the user can easily reach the appliance.

In some embodiments, the appliance also provides an output interface that can be easily connected to a vehicle audio system, such as via an auxiliary input port or Bluetooth. Therefore, the media content streamed to the appliance can then be transmitted from the appliance to the vehicle audio system for playback in the vehicle. In some instances, an FM transmitter is used to transmit from the appliance to the vehicle audio system.

In some embodiments, the appliance can includes a voice interaction system designed for voice interaction with a user in the noisy environment of a vehicle. In some embodiments, the appliance includes multiple microphones that reduce the effects of ambient noise in the passenger area of the vehicle. In an example, the appliance includes at least three microphones: two directed to the passenger area of the vehicle and another facing away from the passenger area of the vehicle to pick up vibrations and low frequency noise for cancellation. The appliance also applies spectral noise cancellation to reduce non-voice frequencies. In addition, omni-directional noise cancellation is applied in some embodiments to reduce omni-directional sound (e.g., vehicle noise). Directional noise is detected by determining a difference between audio input detected by the two microphones facing the passenger area. The difference is preserved as directional audio input. The appliance further cancels out audio that it is currently playing, allowing the appliance to detect voice commands even over loud music, for instance. In this manner, the appliance is arranged to provide an improved voice-based interface in a vehicle environment.

Further, the present disclosure generally relates to generating customized voice communication for a media playback device user. Customized voice communication can include notifications, information regarding media tracks, metadata related to media tracks, guidance regarding streaming appliance use and navigation of menus and options. Voice communication can be customized in light of various aspects, such as user settings, user history, and data peripheral to the user.

As described herein, consuming media content may include one or more of listening to audio content, watching video content, or consuming other types of media content. For ease of explanation, the embodiments described in this application are presented using specific examples. For example, audio content (and in particular music) is described as an example of one form of media consumption. As another example, a vehicle is described as an example of an environment in which media content is consumed. Further, traveling (and in particular driving) in a vehicle is described as an example of an activity during which media content is consumed. However, it should be understood that the same concepts are similarly applicable to other forms of media consumption and to other environments or activities, and at least some embodiments include other forms of media consumption and/or are configured for use in other environments or during other activities.

FIG. 1 illustrates an example system 100 for streaming media content for playback. The system 100 can be used in a vehicle 80. The vehicle 80 includes a dashboard 82 or a head unit 84. The system 100 includes one or more media playback devices 104 configured to play media content, such as a personal media streaming appliance (PMSA) system 110, a media delivery system 112, a vehicle media playback system 114, and a mobile computing device 118. The system 100 further includes a data communication network 116 and an in-vehicle wireless data communication network 122.

The PMSA system 110 operates to receive media content that is provided (e.g., streamed, transmitted, etc.) by a system external to the PMSA system 110, such as the media delivery system 112, and transmit the media content to the vehicle media playback system 114 for playback. In some embodiments, the PMSA system 110 is a portable device which can be carried into and used in the vehicle 80. The PMSA system 110 can be mounted to a structure of the vehicle 80, such as the dashboard 82 or the head unit 84. In other embodiments, the PMSA system 110 can be configured to be built in a structure of the vehicle 80. An example of the PMSA system 110 is illustrated and described in more detail with reference to FIGS. 2 and 6.

The media delivery system 112 operates to provide media content to one or more media playback devices 104 via the network 116. In the illustrated example, the media delivery system 112 provides media content to the PMSA system 110 for playback of media content using the vehicle media playback system 114. An example of the media delivery system 112 is illustrated and described in further detail herein, such as with reference to FIG. 3.

The vehicle media playback system 114 operates to receive media content from the PMSA system 110 and generates a media output 124 to play the media content in the vehicle 80. An example of the vehicle media playback system 114 is illustrated and described in further detail herein, such as with reference to FIG. 5.

The network 116 is a data communication network that facilitates data communication between the PMSA system 110 and the media delivery system 112. In some embodiments, the mobile computing device 118 can also communicate with the media delivery system 112 across the network 116. The network 116 typically includes a set of computing devices and communication links between the computing devices. The computing devices in the network 116 use the links to enable communication among the computing devices in the network. The network 116 can include one or more routers, switches, mobile access points, bridges, hubs, intrusion detection devices, storage devices, standalone server devices, blade server devices, sensors, desktop computers, firewall devices, laptop computers, handheld computers, mobile telephones, vehicular computing devices, and other types of computing devices.

In various embodiments, the network 116 includes various types of communication links. For example, the network 116 can include wired and/or wireless links, including cellular, Bluetooth, ultra-wideband (UWB), 802.11, ZigBee, and other types of wireless links. Furthermore, in various embodiments, the network 82 is implemented at various scales. For example, the network 116 can be implemented as one or more vehicle area networks, local area networks (LANs), metropolitan area networks, subnets, wide area networks (WAN) (such as the Internet), or can be implemented at another scale. Further, in some embodiments, the network 116 includes multiple networks, which may be of the same type or of multiple different types.

In some embodiments, the network 116 can also be used for data communication between other media playback devices 104 (e.g., the mobile computing device 118) and the media delivery system 112. Because the network 116 is configured primarily for data communication between computing devices in the vehicle 80 and computing devices outside the vehicle 80, the network 116 is also referred to herein as an out-of-vehicle network for out-of-vehicle data communication.

Unlike the network 116, the in-vehicle wireless data communication 122 can be used for direct data communication between computing devices (e.g., the media playback devices 104) in the vehicle 80. In some embodiments, the in-vehicle wireless data communication 122 is used for direct communication between the PMSA system 110 and the mobile computing device 118. In other embodiments, the mobile computing device 118 can communicate with the PMSA system 110 in the data communication network 116. In some embodiments, the in-vehicle wireless data communication 122 can also be used for data communication between the PMSA system 110 and the vehicle media playback system 114.

Various types of wireless communication interfaces can be used for the in-vehicle wireless data communication 122. In some embodiments, the in-vehicle wireless data communication 122 includes Bluetooth® technology. In other embodiments, the in-vehicle wireless data communication 122 includes WiFi® technology. In yet other embodiments, other suitable wireless communication interfaces can be used for the in-vehicle wireless data communication 122, such as near field communication (NFC) and an ultrasonic data transmission.

In some embodiments, the mobile computing device 118 is configured to play media content independently from the PMSA system 110. In some embodiments, the mobile computing device 118 is a standalone computing device that, without the PMSA system 110 involved, can communicate with the media delivery system 112 and receive media content from the media delivery system 112 for playback in the vehicle 80. An example of the mobile computing device 118 is illustrated and described in further detail herein, such as with reference to FIG. 6.

FIG. 2 is a block diagram of an example embodiment of the PMSA system 110 of the media streaming system 100 shown in FIG. 1. In this example, the PMSA system 110 includes a user input device 130, a display device 132, a wireless data communication device 134, a movement detection device 136, a location determining device 138, a media content output device 140, an in-vehicle wireless communication device 142, a power supply 144, a power input device 146, a processing device 148, and a memory device 150.

In some embodiments, the PMSA system 110 is a system dedicated for streaming personalized media content in a vehicle environment. At least some embodiments of the PMSA system 110 have limited functionalities specifically selected for streaming media content from the media delivery system 112 at least via the network 116 and/or for providing other services associated with the media content streaming service. The PMSA system 110 may have no other general use such as found in other computing devices, such as smartphones, tablets, and other smart devices. For example, in some embodiments, when the PMSA system 110 is powered up, the PMSA system 110 is configured to automatically activate a software application that is configured to perform the media content streaming and media playback operations of the PMSA system 110 using at least one of the components, devices, and elements of the PMSA system 110. In some embodiments, the software application of the PMSA system 110 is configured to continue running until the PMSA system 110 is powered off or powered down to a predetermined level. In some embodiments, the PMSA system 110 is configured to be free of any user interface control that would allow a user to disable the automatic activation of the software application on the PMSA system 110.

As described herein, the PMSA system 110 provides various structures, features, and functions that improve the user experience of consuming media content in a vehicle.

As illustrated, the PMSA system 110 can communicate with the media delivery system 112 to receive media content via the network 116 and enable the vehicle media playback system 114 to play the media content in the vehicle. In some embodiments, the PMSA system 110 can communicate with the mobile computing device 118 that is in data communication with the media delivery system 112. As described herein, the mobile computing device 118 can communicate with the media delivery system 112 via the network 116.

The user input device 130 operates to receive a user input 152 from a user U for controlling the PMSA system 110. As illustrated, the user input 152 can include a manual input 154 and a voice input 156. In some embodiments, the user input device 130 includes a manual input device 160 and a sound detection device 162.

The manual input device 160 operates to receive the manual input 154 for controlling playback of media content via the PMSA system 110. In addition, in some embodiments, the manual input 154 is received for managing various pieces of information transmitted via the PMSA system 110 and/or controlling other functions or aspects associated with the PMSA system 110.

In some embodiments, the manual input device 160 includes one or more manual control elements configured to receive various manual control actions, such as pressing actions and rotational actions. As described herein, the physical input device 160 includes a manual control knob 510 and one or more physical buttons 512, which is further illustrated and described with reference to FIG. 7.

The sound detection device 162 operates to detect and record sounds from proximate the PMSA system 110. For example, the sound detection device 162 can detect sounds including the voice input 156. In some embodiments, the sound detection device 162 includes one or more acoustic sensors configured to detect sounds proximate the PMSA system 110. For example, acoustic sensors of the sound detection device 162 includes one or more microphones. Various types of microphones can be used for the sound detection device 162 of the PMSA system 110.

In some embodiments, the voice input 156 is a user's voice (also referred to herein as an utterance) for controlling playback of media content via the PMSA system 110. In addition, the voice input 156 is a user's voice for managing various data transmitted via the PMSA system 110 and/or controlling other functions or aspects associated with the PMSA system 110.

In some embodiments, the sound detection device 162 is configured to cancel noises from the received sounds so that a desired sound (e.g., the voice input 156) is clearly identified. For example, the sound detection device 162 can include one or more noise-canceling microphones which are configured to filter ambient noise from the voice input 156. In addition or alternatively, a plurality of microphones of the sound detection device 162 are arranged at different locations in a body of the PMSA system 110 and/or oriented in different directions with respect to the body of the PMSA system 110, so that ambient noise is effectively canceled from the voice input 156 or other desired sounds being identified.

In some embodiments, the sounds detected by the sound detection device 162 can be processed by the sound processing engine 180 of the PMSA system 110 as described below.

Referring still to FIG. 2, the display device 132 operates to display information to the user U. Examples of such information include media content playback information, notifications, and other information.

In some embodiments, the display device 132 operates as a display screen only and is not capable of receiving a user input. By receiving the manual input 154 only via the manual input device 160 and disabling receipt of manual input via the display device 132, the user interface of the PMSA system 110 is simplified so that the user U can control the PMSA system 110 while maintaining focus on other activities in the vehicle 80. It is understood however that, in other embodiments, the display device 132 is configured as a touch-sensitive display screen that operates as both a display screen and a user input device. In yet other embodiments, the PMSA system 110 does not include a display device.

As described herein, in some embodiments, the display device 132 is arranged at the manual input device 160. In other embodiments, the display device 132 is arranged separate from the manual input device 160.

The wireless data communication device 134 operates to enable the PMSA system 110 to communicate with one or more computing devices at a remote location that is outside the vehicle 80. In the illustrated example, the wireless data communication device 134 operates to connect the PMSA system 110 to one or more networks outside the vehicle 80, such as the network 116. For example, the wireless data communication device 134 is configured to communicate with the media delivery system 112 and receive media content from the media delivery system 112 at least partially via the network 116. The wireless data communication device 134 can be a wireless network interface of various types which connects the PMSA system 110 to the network 116. Examples of the wireless data communication device 134 include wireless wide area network (WWAN) interfaces, which use mobile telecommunication cellular network technologies. Examples of cellular network technologies include LTE, WiMAX, UMTS, CDMA2000, GSM, cellular digital packet data (CDPD), and Mobitex. In the some embodiments, the wireless data communication device 134 is configured as a cellular network interface to facilitate data communication between the PMSA system 110 and the media delivery system 112 over cellular network.

The movement detection device 136 can be used to detect movement of the PMSA system 110 and the vehicle 80. In some embodiments, the movement detection device 136 is configured to monitor one or more factors that are used to determine movement of the vehicle 80. The movement detection device 136 can include one or more sensors that are configured to detect movement, position, and/or orientation of the PMSA system 110. As an example, the movement detection device 136 is operable to determine an orientation of the PMSA system 110. The movement detection device 136 can detect changes in the determined orientation and interpret those changes as indicating movement of the PMSA system 110. In some embodiments, the movement detection device 136 includes an accelerometer. In other embodiments, the movement detection device 136 includes a gyroscope. Other sensors can also be used for the movement detection device 136, such as a magnetometer, a GPS receiver, an altimeter, an odometer, a speedometer, a shock detector, a vibration sensor, a proximity sensor, and an optical sensor (e.g., a light sensor, a camera, and an infrared sensor).

The location determining device 138 is a device that determines the location of the PMSA system 110. In some embodiments, the location determining device 138 uses one or more of Global Positioning System (GPS) technology (which may receive GPS signals), Global Navigation Satellite System (GLONASS), cellular triangulation technology, network-based location identification technology, Wi-Fi positioning systems technology, and combinations thereof.

The media content output device 140 is an interface that enables the PMSA system 110 to transmit media content to the vehicle media playback device 114. Some embodiments of the PMSA system 110 do not have a speaker and thus cannot play media content independently. In these embodiments, the PMSA system 110 is not regarded as a standalone device for playing media content. Instead, the PMSA system 110 transmits media content to another media playback device, such as the vehicle media playback device 114 to enable the other media playback device to play the media content, such as through the vehicle stereo system.

As illustrated, the PMSA system 110 (e.g., a media content processing engine 176 thereof in FIG. 2) can convert media content to a media content signal 164, the media content output device 140 transmits the media content signal 164 to the vehicle media playback system 114. The vehicle media playback system 114 can play the media content based on the media content signal 164. For example, the vehicle media playback system 114 operates to convert the media content signal 164 into a format that is readable by the vehicle media playback system 114 for playback.

In some embodiments, the media content output device 140 includes an auxiliary (AUX) output interface 166 and a wireless output interface 168.

The AUX output interface 166 is configured to connect the PMSA system 110 to the vehicle media playback system 114 via a cable (e.g., a media content output line 550 in FIG. 7) of the PMSA system 110. In some embodiments, as illustrated in FIG. 7, the media content output line 550 extending from the PMSA system 110 is connected to an input connector 340 (e.g., an auxiliary input jack or port) of the vehicle media playback system 114. As illustrated herein, the media content output line 550 can be of various types, such as an analog audio cable or a USB cable.

The wireless output interface 168 is configured to connect the PMSA system 110 to the vehicle media playback system 114 via a wireless communication protocol. In some embodiments, the wireless output interface 168 is configured for Bluetooth connection. In other embodiments, the wireless output interface 168 is configured for other types of wireless connection. In some embodiments, the wireless output interface 168 is incorporated into, or implemented with, the in-vehicle wireless communication device 142. For example, when the media content output device 140 wirelessly transmits media content to the vehicle media playback system 114, the in-vehicle wireless communication device 142 can be used to implement the wireless output interface 168 of the media content output device 140.

Referring still to FIG. 2, the in-vehicle wireless communication device 142 operates to establish a wireless data communication, such as the in-vehicle wireless data communication 122, between computing devices in a vehicle 80. In the illustrated example, the in-vehicle wireless communication device 142 is used to enable the PMSA system 110 to communicate with other computing devices, such as the mobile computing device 118, in the vehicle 80. Various types of wireless communication interfaces can be used for the in-vehicle wireless communication device 142, such as Bluetooth technology®, WiFi® technology, a near field communication (NFC), and an ultrasound data transmission. The in-vehicle wireless communication is also referred to herein as a short-range wireless communication.

The power supply 144 is included in the example PMSA system 110 and is configured to supply electric power to the PMSA system 110. In some embodiments, the power supply 144 includes at least one battery. The power supply 144 can be rechargeable. For example, the power supply 144 can be recharged using the power input device 146 that is connected to an external power supply. In some embodiments, the power supply 144 is included inside the PMSA system 110 and is not removable from the PMSA system 110. In other embodiments, the power supply 144 is removable by the user from the PMSA system 110.

The power input device 146 is configured to receive electric power to maintain activation of components of the PMSA system 110. As described herein, the power input device 146 is connected to a power source of the vehicle 80 (e.g., a vehicle power supply 540 in FIG. 7) and use the electric power from the vehicle 80 as a primary power source to maintain activation of the PMSA system 110 over an extended period of time, such as longer than several minutes.

The processing device 148, in some embodiments, comprises one or more central processing units (CPU). In other embodiments, the processing device 148 additionally or alternatively includes one or more digital signal processors, field-programmable gate arrays, or other electronic circuits.

The memory device 150 typically includes at least some form of computer-readable media. Computer readable media includes any available media that can be accessed by the PMSA system 110. By way of example, computer-readable media include computer readable storage media and computer readable communication media.

Computer readable storage media includes volatile and nonvolatile, removable and non-removable media implemented in any device configured to store information such as computer readable instructions, data structures, program modules, or other data. Computer readable storage media includes, but is not limited to, random access memory, read only memory, electrically erasable programmable read only memory, flash memory and other memory technology, compact disc read only memory, blue ray discs, digital versatile discs or other optical storage, magnetic storage devices, or any other medium that can be used to store the desired information and that can be accessed by the PMSA system 110. In some embodiments, computer readable storage media is non-transitory computer readable storage media.

Computer readable communication media typically embodies computer readable instructions, data structures, program modules or other data in a modulated data signal such as a carrier wave or other transport mechanism and includes any information delivery media. The term “modulated data signal” refers to a signal that has one or more of its characteristics set or changed in such a manner as to encode information in the signal. By way of example, computer readable communication media includes wired media such as a wired network or direct-wired connection, and wireless media such as acoustic, radio frequency, infrared, and other wireless media. Combinations of any of the above are also included within the scope of computer readable media.

The memory device 150 operates to store data and instructions. In some embodiments, the memory device 150 stores instructions for a media content cache 172, a caching management engine 174, a media content processing engine 176, a manual input processing engine 178, a sound processing engine 180, a voice interaction engine 182, and a verbosity engine 183. Verbosity engine 183 can determine whether to provide voice feedback/notification, as well as a customized level of detail in voice feedback/notification. Additional capabilities and functions of verbosity engine 183 are described below with reference to, at least, FIGS. 8-10.

Some embodiments of the memory device 150 include the media content cache 172. The media content cache 172 stores media content items, such as media content items that have been received from the media delivery system 112. The media content items stored in the media content cache 172 may be stored in an encrypted or unencrypted format. In some embodiments, the media content cache 172 also stores metadata about media content items such as title, artist name, album name, length, genre, mood, era, etc. The media content cache 172 can further store playback information about the media content items and/or other information associated with the media content items.

The caching management engine 174 is configured to receive and cache media content in the media content cache 172 and manage the media content stored in the media content cache 172. In some embodiments, when media content is streamed from the media delivery system 112, the caching management engine 174 operates to cache at least a portion of the media content into the media content cache 172 so that at least a portion of the cached media content can be transmitted to the vehicle media playback system 114 for playback. In other embodiments, the caching management engine 174 operates to cache at least a portion of media content into the media content cache 172 while online so that the cached media content is retrieved for playback while the PMSA system 110 is offline.

The media content processing engine 176 is configured to process the media content that is received from the media delivery system 112, and generate the media content signal 164 usable for the vehicle media playback system 114 to play the media content. The media content signal 164 is transmitted to the vehicle media playback system 114 using the media content output device 140, and then decoded so that the vehicle media playback system 114 plays the media content in the vehicle 80.

The manual input processing engine 178 operates to receive the manual input 154 via the manual input device 160. In some embodiments, when the manual input device 160 is actuated (e.g., pressed or rotated) upon receiving the manual input 154, the manual input device 160 generates an electric signal representative of the manual input 154. The manual input processing engine 178 can process the electric signal and determine the user input (e.g., command or instruction) corresponding to the manual input 154 to the PMSA system 110. In some embodiments, the manual input processing engine 178 can perform a function requested by the manual input 154, such as controlling playback of media content. The manual input processing engine 178 can cause one or more other engines to perform the function associated with the manual input 154.

The sound processing engine 180 is configured to receive sound signals obtained from the sound detection device 162 and process the sound signals to identify different sources of the sounds received via the sound detection device 162. In some embodiments, the sound processing engine 180 operates to filter the user's voice input 156 from noises included in the detected sounds. Various noise cancellation technologies, such as active noise control or cancelling technologies or passive noise control or cancelling technologies, can be used for filter the voice input from ambient noise. In examples, the sound processing engine 180 filters out omni-directional noise and preserves directional noise (e.g., an audio input difference between two microphones) in audio input. In examples, the sound processing engine 180 removes frequencies above or below human speaking voice frequencies. In examples, the sound processing engine 180 subtracts audio output of the device from the audio input to filter out the audio content being provided by the device. (e.g., to reduce the need of the user to shout over playing music). In examples, the sound processing engine 180 performs echo cancellation. By using one or more of these techniques, the sound processing engine 180 provides sound processing customized for use in a vehicle environment.

In other embodiments, the sound processing engine 180 operates to process the received sound signals to identify the sources of particular sounds of the sound signals, such as people's conversation in the vehicle, the vehicle engine sound, or other ambient sounds associated with the vehicle.

In some embodiments, a recording of sounds captured using the sound detection device 162 can be analyzed using speech recognition technology to identify words spoken by the user. The words may be recognized as commands from the user that alter the playback of media content and/or other functions or aspect of the PMSA system 110. In some embodiments, the words and/or the recordings may also be analyzed using natural language processing and/or intent recognition technology to determine appropriate actions to take based on the spoken words. Additionally or alternatively, the sound processing engine 180 may determine various sound properties about the sounds proximate the PMSA system 110 such as volume, dominant frequency or frequencies, etc. These sound properties may be used to make inferences about the environment proximate to the PMSA system 110.

The voice interaction engine 182 operates to cooperate with the media delivery system 112 (e.g., a voice interaction server 204 thereof as illustrated in FIG. 3) to identify a command (e.g., a user intent) that is conveyed by the voice input 156. In some embodiments, the voice interaction engine 182 transmits the user's voice input 156 that is detected by the sound processing engine 180 to the media delivery system 112 so that the media delivery system 112 operates to determine a command intended by the voice input 156. In other embodiments, at least some of the determination process of the command can be performed locally by the voice interaction engine 182.

In addition, some embodiments of the voice interaction engine 182 can operate to cooperate with the media delivery system 112 (e.g., the voice interaction server 204 thereof) to provide a voice assistant that performs various voice-based interactions with the user, such as voice feedbacks, voice notifications, voice recommendations, and other voice-related interactions and services.

FIG. 3 is a block diagram of an example embodiment of the media delivery system 112 of FIG. 1. The media delivery system 112 includes a media content server 200, a personal media streaming appliance (PMSA) server 202, and a voice interaction server 204.

The media delivery system 112 comprises one or more computing devices and provides media content to the PMSA system 110 and, in some embodiments, other media playback devices, such as the mobile computing device 118, as well. In addition, the media delivery system 112 interacts with the PMSA system 110 to provide the PMSA system 110 with various functionalities.

In at least some embodiments, the media content server 200, the PMSA server 202, and the voice interaction server 204 are provided by separate computing devices. In other embodiments, the media content server 200, the PMSA server 202, and the voice interaction server 204 are provided by the same computing device(s). Further, in some embodiments, at least one of the media content server 200, the PMSA server 202, and the voice interaction server 204 is provided by multiple computing devices. For example, the media content server 200, the PMSA server 202, and the voice interaction server 204 may be provided by multiple redundant servers located in multiple geographic locations.

Although FIG. 3 shows a single media content server 200, a single PMSA server 202, and a single voice interaction server 204, some embodiments include multiple media servers, multiple PMSA servers, and/or multiple voice interaction servers. In these embodiments, each of the multiple media servers, multiple PMSA serves, and multiple voice interaction servers may be identical or similar to the media content server 200, the PMSA server 202, and the voice interaction server, respectively, as described herein, and may provide similar functionality with, for example, greater capacity and redundancy and/or services from multiple geographic locations. Alternatively, in these embodiments, some of the multiple media servers, the multiple PMSA servers, and/or the multiple voice interaction servers may perform specialized functions to provide specialized services. Various combinations thereof are possible as well.

The media content server 200 transmits stream media 210 (FIG. 2) to media playback devices such as the PMSA system 110. In some embodiments, the media content server 200 includes a media server application 212, a processing device 214, a memory device 216, and a network access device 218. The processing device 214 and the memory device 216 may be similar to the processing device 148 and the memory device 150, respectively, which have each been previously described. Therefore, the description of the processing device 214 and the memory device 216 are omitted for brevity purposes.

The network access device 218 operates to communicate with other computing devices over one or more networks, such as the network 82. Examples of the network access device include one or more wired network interfaces and wireless network interfaces. Examples of such wireless network interfaces of the network access device 218 include wireless wide area network (WWAN) interfaces (including cellular networks) and wireless local area network (WLANs) interfaces. In other examples, other types of wireless interfaces can be used for the network access device 218.

In some embodiments, the media server application 212 is configured to stream media content, such as music or other audio, video, or other suitable forms of media content. The media server application 212 includes a media stream service 222, a media application interface 224, and a media data store 226. The media stream service 222 operates to buffer media content, such as media content items 230A, 230B, and 230N (collectively 230), for streaming to one or more streams 232A, 232B, and 232N (collectively 232).

The media application interface 224 can receive requests or other communication from media playback devices or other systems, such as the PMSA system 110, to retrieve media content items from the media content server 200. For example, in FIG. 2, the media application interface 224 receives communication from the PMSA system 110, such as the caching management engine 174 thereof, to receive media content from the media content server 200.

In some embodiments, the media data store 226 stores media content items 234, media content metadata 236, media contexts 238, user accounts 240, and taste profiles 242. The media data store 226 may comprise one or more databases and file systems. Other embodiments are possible as well.

As discussed herein, the media content items 234 (including the media content items 230) may be audio, video, or any other type of media content, which may be stored in any format for storing media content.

The media content metadata 236 provide various information associated with the media content items 234. In some embodiments, the media content metadata 236 includes one or more of title, artist name, album name, length, genre, mood, era, etc.

The media content metadata 236 operates to provide various pieces of information associated with the media content items 234. In some embodiments, the media content metadata 236 includes one or more of title, artist name, album name, length, genre, mood, era, etc.

In some embodiments, the media content metadata 236 includes acoustic metadata, cultural metadata, and explicit metadata. The acoustic metadata may be derived from analysis of the track refers to a numerical or mathematical representation of the sound of a track. Acoustic metadata may include temporal information such as tempo, rhythm, beats, downbeats, patterns, sections, or other structures. Acoustic metadata may also include spectral information such as melody, pitch, harmony, timbre, chroma, loudness, vocalness, or other possible features. Acoustic metadata may take the form of one or more vectors, matrices, lists, tables, and other data structures. Acoustic metadata may be derived from analysis of the music signal. One form of acoustic metadata, commonly termed an acoustic fingerprint, may uniquely identify a specific track. Other forms of acoustic metadata may be formed by compressing the content of a track while retaining some or all of its musical characteristics.

The cultural metadata refers to text-based information describing listeners' reactions to a track or song, such as styles, genres, moods, themes, similar artists and/or songs, rankings, etc. Cultural metadata may be derived from expert opinion such as music reviews or classification of music into genres. Cultural metadata may be derived from listeners through websites, chatrooms, blogs, surveys, and the like. Cultural metadata may include sales data, shared collections, lists of favorite songs, and any text information that may be used to describe, rank, or interpret music. Cultural metadata may also be generated by a community of listeners and automatically retrieved from Internet sites, chat rooms, blogs, and the like. Cultural metadata may take the form of one or more vectors, matrices, lists, tables, and other data structures. A form of cultural metadata particularly useful for comparing music is a description vector. A description vector is a multi-dimensional vector associated with a track, album, or artist. Each term of the description vector indicates the probability that a corresponding word or phrase would be used to describe the associated track, album or artist.

The explicit metadata refers to factual or explicit information relating to music. Explicit metadata may include album and song titles, artist and composer names, other credits, album cover art, publisher name and product number, and other information. Explicit metadata is generally not derived from the music itself or from the reactions or opinions of listeners.

At least some of the metadata 236, such as explicit metadata (names, credits, product numbers, etc.) and cultural metadata (styles, genres, moods, themes, similar artists and/or songs, rankings, etc.), for a large library of songs or tracks can be evaluated and provided by one or more third party service providers. Acoustic and cultural metadata may take the form of parameters, lists, matrices, vectors, and other data structures. Acoustic and cultural metadata may be stored as XML files, for example, or any other appropriate file type. Explicit metadata may include numerical, text, pictorial, and other information. Explicit metadata may also be stored in an XML or other file. All or portions of the metadata may be stored in separate files associated with specific tracks. All or portions of the metadata, such as acoustic fingerprints and/or description vectors, may be stored in a searchable data structure, such as a k-D tree or other database format.

Referring still to FIG. 3, each of the media contexts 238 is used to identify one or more media content items 234. In some embodiments, the media contexts 238 are configured to group one or more media content items 234 and provide a particular context to the group of media content items 234. Some examples of the media contexts 238 include albums, artists, playlists, and individual media content items. By way of example, where a media context 238 is an album, the media context 238 can represent that the media content items 234 identified by the media context 238 are associated with that album.

As described above, the media contexts 238 can include playlists 239. The playlists 238 are used to identify one or more of the media content items 234. In some embodiments, the playlists 238 identify a group of the media content items 234 in a particular order. In other embodiments, the playlists 238 merely identify a group of the media content items 234 without specifying a particular order. Some, but not necessarily all, of the media content items 234 included in a particular one of the playlists 238 are associated with a common characteristic such as a common genre, mood, or era.

In some embodiments, a user can listen to media content items in a playlist 238 by selecting the playlist 238 via a media playback device 104, such as the PMSA system 110. The media playback device 104 then operates to communicate with the media delivery system 112 so that the media delivery system 112 retrieves the media content items identified by the playlist 238 and transmits data for the media content items to the media playback device 104 for playback.

In some embodiments, the playlist 238 includes a playlist title and a list of content media item identifications. The playlist title is a title of the playlist, which can be provided by a user using the media playback device 104. The list of content media item identifications includes one or more media content item identifications (IDs) that refer to respective media content items 170.

Each media content item is identified by a media content item ID and includes various pieces of information, such as a media content item title, artist identification (e.g., individual artist name or group name, or multiple artist names or group names), and media content item data. In some embodiments, the media content item title and the artist ID are part of the media content metadata 236, which can further include other attributes of the media content item, such as album name, length, genre, mood, era, etc. as described herein.

At least some of the playlists 238 may include user-created playlists. For example, a user of a media streaming service provided using the media delivery system 112 can create a playlist 238 and edit the playlist 238 by adding, removing, and rearranging media content items in the playlist 238. A playlist 238 can be created and/or edited by a group of users together to make it a collaborative playlist. In some embodiments, user-created playlists can be available to a particular user only, a group of users, or to the public based on a user-definable privacy setting.

In some embodiments, when a playlist is created by a user or a group of users, the media delivery system 112 operates to generate a list of media content items recommended for the particular user or the particular group of users. In some embodiments, such recommended media content items can be selected based at least on the taste profiles 242 as described herein. Other information or factors can be used to determine the recommended media content items. Examples of determining recommended media content items are described in U.S. patent application Ser. No. 15/858,377, titled MEDIA CONTENT ITEM RECOMMENDATION SYSTEM, filed Dec. 29, 2017, the disclosure of which is hereby incorporated by reference in its entirety.

In addition or alternatively, at least some of the playlists 238 are created by a media streaming service provider. For example, such provider-created playlists can be automatically created by the media delivery system 112. In some embodiments, a provider-created playlist can be customized to a particular user or a particular group of users. By way of example, a playlist for a particular user can be automatically created by the media delivery system 112 based on the user's listening history (e.g., the user's taste profile) and/or listening history of other users with similar tastes. In other embodiments, a provider-created playlist can be configured to be available for the public in general. Provider-created playlists can also be sharable with to other users.

The user accounts 240 are used to identify users of a media streaming service provided by the media delivery system 112. In some embodiments, a user account 240 allows a user to authenticate to the media delivery system 112 and enable the user to access resources (e.g., media content items, playlists, etc.) provided by the media delivery system 112. In some embodiments, the user can use different devices (e.g., the PMSA system 110 and the mobile computing device 118) to log into the user account and access data associated with the user account in the media delivery system 112. User authentication information, such as a username, an email account information, a password, and other credentials, can be used for the user to log into his or her user account.

The taste profiles 242 contain records indicating media content tastes of users. A taste profile can be associated with a user and used to maintain an in-depth understanding of the music activity and preference of that user, enabling personalized recommendations, taste profiling and a wide range of social music applications. Libraries and wrappers can be accessed to create taste profiles from a media library of the user, social website activity and other specialized databases to mine music preferences.

In some embodiments, each taste profile 242 is a representation of musical activities, such as user preferences and historical information about the users' consumption of media content, and can include a wide range of information such as artist plays, song plays, skips, dates of listen by the user, songs per day, playlists, play counts, start/stop/skip data for portions of a song or album, contents of collections, user rankings, preferences, or other mentions received via a client device, or other media plays, such as websites visited, book titles, movies watched, playing activity during a movie or other presentations, ratings, or terms corresponding to the media, such as “comedy”, “drama”, etc.

In addition, the taste profiles 242 can include other information. For example, the taste profiles 242 can include libraries and/or playlists of media content items associated with the user. The taste profiles 242 can also include information about the user's relationships with other users (e.g., associations between users that are stored by the media delivery system 112 or on a separate social media site).

The taste profiles 242 can be used for a number of purposes. One use of taste profiles is for creating personalized playlists (e.g., personal playlisting). An API call associated with personal playlisting can be used to return a playlist customized to a particular user. For example, the media content items listed in the created playlist are constrained to the media content items in a taste profile associated with the particular user. Another example use case is for event recommendation. A taste profile can be created, for example, for a festival that contains all the artists in the festival. Music recommendations can be constrained to artists in the taste profile. Yet another use case is for personalized recommendation, where the contents of a taste profile are used to represent an individual's taste. This API call uses a taste profile as a seed for obtaining recommendations or playlists of similar artists. Yet another example taste profile use case is referred to as bulk resolution. A bulk resolution API call is used to resolve taste profile items to pre-stored identifiers associated with a service, such as a service that provides metadata about items associated with the taste profile (e.g., song tempo for a large catalog of items). Yet another example use case for taste profiles is referred to as user-to-user recommendation. This API call is used to discover users with similar tastes by comparing the similarity of taste profile item(s) associated with users.

A taste profile 242 can represent a single user or multiple users. Conversely, a single user or entity can have multiple taste profiles 242. For example, one taste profile can be generated in connection with a user's media content play activity, whereas another separate taste profile can be generated for the same user based the user's selection of media content items and/or artists for a playlist.

Referring still to FIG. 3, the PMSA server 202 operates to provide various functionalities to the PMSA system 110. In some embodiments, the PMSA server 202 includes a personal media streaming appliance (PMSA) server application 250, a processing device 252, a memory device 254, and a network access device 256. The processing device 252, the memory device 254, and the network access device 256 may be similar to the processing device 214, the memory device 216, and the network access device 218, respectively, which have each been previously described.

In some embodiments, the PMSA server application 250 operates to interact with the PMSA system 110 and enable the PMSA system 110 to perform various functions, such as receiving a user manual input, displaying information, providing notifications, performing power management, providing location-based services, and authenticating one or more users for the PMSA system 110. The PMSA server application 250 can interact with other servers, such as the media content server 200 and the voice interaction server 204, to execute such functions.

PMSA server application 250 can include various engines. Example engines include traffic engine 290, route engine 292, user history engine 294, and user emotion engine 296. Traffic engine 290 obtains real-time or near-real time traffic information. Traffic engine 290 can obtain GPS data for a user's location. Traffic engine can also communicate with third party applications to obtain traffic information, where traffic information includes a level of traffic in the user's area.

Route engine 292 can determine a user's driving route. In some instances, route engine 292 obtains GPS data of the user's location. Route engine 292 can also communicate with navigational applications to obtain navigational routes the user entered. Route data obtained by route engine 292 can be used to determine a driving duration, a probable familiarity with the route, and traffic information.

User history engine 294 can obtain a user's history and/or settings. User history includes how often, what times of day, and/or which days of the week the user interacts with the user talks to the PMSA system 110.

User emotion engine 296 can determine a probable user emotion at a given point in time. User emotion engine 296 can consider various parameters to determine a probable emotional state of the user. For instance, user emotion engine 296 can analyze a type of music played, user playback patterns (e.g., listening to the same song), and level of user interactivity, to name a few examples.

Referring still to FIG. 3, the voice interaction server 204 operates to provide various voice-related functionalities to the PMSA system 110. In some embodiments, the voice interaction server 204 includes a voice interaction server application 270, a processing device 272, a memory device 274, and a network access device 276. The processing device 272, the memory device 274, and the network access device 276 may be similar to the processing device 214, the memory device 216, and the network access device 218, respectively, which have each been previously described.

In some embodiments, the voice interaction server application 270 operates to interact with the PMSA system 110 and enable the PMSA system 110 to perform various voice-related functions, such as voice feedback and voice notifications. In some embodiments, the voice interaction server application 270 is configured to receive data (e.g., speech-to-text (STT) data) representative of a voice input received via the PMSA system 110 and process the data to determine a user command (e.g., a user request or instruction). In some embodiments, at least one of the media content server 200, the PMSA server 202, and the voice interaction server 204 may be used to perform one or more functions corresponding to the determined user command.

In some instances, a speech analysis engine performs speech-to-text. After receiving at least a portion of the audio input, the speech analysis engine can process the audio input data. Processing audio input can take a variety of different forms. In many examples, processing audio input involves performing speech-to-text transcription of the audio input. In other examples, processing audio input can involve determining an intent associated with the utterance. For instance, if the speech analysis engine were processing an utterance as audio input, the speech analysis engine performs speech-to-text transcription on the utterance to determine that the audio input data corresponds to the text “hey computer play my favorites”. In other instances, the speech analysis engine processes the utterance to determine that intent behind the utterance is to cause playback from a context called “my favorites”.

The example speech analysis engine can provide an output based on processing the audio input. As will be understood, the output is based on the type of processing performed. In some instances, the output or audio data is provided to another analysis or processing engine for further processing, such as text analysis, natural language processing, emotion detection, or other processing. In other instances, that additional processing is performed by the speech analysis engine and the results of that additional processing can be provided to other modules.

FIG. 5 is a block diagram of an example embodiment of the vehicle media playback system 114. In this example, the vehicle media playback system 114 includes a vehicle head unit 302, an amplifier 304, and a speaker 306.

The vehicle head unit 302 is configured to receive a user input and generate media content from various sources. In this example, the vehicle head unit 302 includes a receiver 310, a wireless communication device 312, a wired input device 314, a processing device 316, a memory device 318, a user input assembly 320, a display device 322, and a stored media interface assembly 324.

The receiver 310 operates to receive media content signals from various external sources. The received signals can then be used to generate media output by the vehicle media playback system 264. Some embodiments of the receiver 310 include one or more tuners for receiving radio signals such as FM or AM radio signals. Other embodiments of the receiver 310 include a receiver for receiving satellite radio signals and/or a receiver for receiving internet radio signals.

The wireless communication device 312 operates to communicate with other devices using wireless data signals. The wireless communication device 312 can include one or more of a Bluetooth transceiver and a Wi-Fi transceiver. The wireless data signal may comprise a media content signal such as an audio or video signal. In some embodiments, the wireless communication device 312 is used to enable the vehicle media playback system 114 to wirelessly communicate with the PMSA system 110 and receive the media content signal 164 (FIG. 2) from the PMSA system 110 via an in-vehicle wireless network. The in-vehicle wireless network between the PMSA system 110 and the vehicle media playback system 114 can be configured similarly to the in-vehicle wireless data communication 122 (FIG. 2).

The wired input device 314 provides an interface configured to receive a cable for providing media content and/or commands. The wired input device 314 includes an input connector 340 configured to receive a plug extending from a media playback device for transmitting a signal for media content. In some embodiments, the wired input device 314 can include an auxiliary input jack (AUX) for receiving a plug from a media playback device that transmits analog audio signals. The wired input device 314 can also include different or multiple input jacks for receiving plugs from media playback devices that transmit other types of analog or digital signals (e.g., USB, HDMI, Composite Video, YPbPr, DVI). In some embodiments, the wired input device 314 is also used to receive instructions from other devices.

In some embodiments, the wired input device 314 provides the input connector 340 (e.g., an AUX port) for receiving a connector 552 extending from the PMSA system 110, as illustrated in FIG. 7. The media content signal 164 is then transmitted from the PMSA system 110 to the vehicle media playback system 114 via the cable 550, the connector 552, and the input connector 340.

The processing device 316 operates to control various devices, components, and elements of the vehicle media playback system 114. The processing device 316 can be configured similar to the processing device 148 (FIG. 2) and, therefore, the description of the processing device 316 is omitted for brevity purposes.

In some embodiments, the processing device 316 operates to process the media content signal 164 received from the PMSA system 110 and convert the signal 164 to a format readable by the vehicle media playback system 114 for playback.

The memory device 318 is configured to store data and instructions that are usable to control various devices, components, and elements of the vehicle media playback system 114. The memory device 318 can be configured similar to the memory device 150 (FIG. 2) and, therefore, the description of the memory device 318 is omitted for brevity purposes.

The user input assembly 320 includes one or more input devices for receiving user input from users for controlling the vehicle media playback system 114. In some embodiments, the user input assembly 320 includes multiple knobs, buttons, and other types of input controls for adjusting volume, selecting sources and content, and adjusting various output parameters. In some embodiments, the various input devices are disposed on or near a front surface of the vehicle head unit 302. The various input devices can also be disposed on the steering wheel of the vehicle or elsewhere. Additionally or alternatively, the user input assembly 320 can include one or more touch sensitive surfaces, which can be incorporated in the display device 322.

The display device 322 displays information. In some embodiments, the display device 322 includes a liquid crystal display (LCD) panel for displaying textual information about content and/or settings of the vehicle media playback system 114. The display device 322 can also include other types of display panels such as a light emitting diode (LED) panel. In some embodiments, the display device 322 can also display image or video content.

The stored media interface assembly 324 reads media content stored on a physical medium. In some embodiments, the stored media interface assembly 324 comprises one or more devices for reading media content from a physical medium such as a compact disc or cassette tape.

The amplifier 304 operates to amplify a signal received from the vehicle head unit 302 and transmits the amplified signal to the speaker 306. In this manner, the media output 124 can be played back at a greater volume. The amplifier 304 may include a power source to power the amplification.

The speaker 306 operates to produce an audio output (e.g., the media output 124) based on an electronic signal. The speaker 306 can include one or more vehicle embedded speakers 330 disposed at various locations within the vehicle 80. In some embodiments, separate signals are received for at least some of the speakers (e.g., to provide stereo or surround sound).

In other embodiments, the speaker 306 can include one or more external speakers 332 which are arranged within the vehicle 80. Users may bring one or more external speakers 332 into the vehicle 80 and connect the external speakers 332 to the vehicle head unit 302 using a wired interface or a wireless interface. In some embodiments, the external speakers 332 can be connected to the vehicle head unit 302 using Bluetooth. Other wireless protocols can be used to connect the external speakers 332 to the vehicle head unit 302. In other embodiments, a wired connection (e.g., a cable) can be used to connect the external speakers 332 to the vehicle head unit 302. Examples of the wired connection include an analog or digital audio cable connection and a universal serial bus (USB) cable connection. The external speaker 332 can also include a mechanical apparatus for attachment to a structure of the vehicle.

FIG. 6 is a block diagram of an example embodiment of the mobile computing device 118 of FIG. 1.

Similar to the PMSA system 110, the mobile computing device 118 can also be used to play media content. For example, the mobile computing device 118 is configured to play media content that is provided (e.g., streamed or transmitted) by a system external to the mobile computing device 118, such as the media delivery system 112, another system, or a peer device. In other examples, the mobile computing device 118 operates to play media content stored locally on the mobile computing device 118. In yet other examples, the mobile computing device 118 operates to play media content that is stored locally as well as media content provided by other systems.

In some embodiments, the mobile computing device 118 is a handheld or portable entertainment device, smartphone, tablet, watch, wearable device, or any other type of computing device capable of playing media content. In other embodiments, the mobile computing device 118 is a laptop computer, desktop computer, television, gaming console, set-top box, network appliance, blue-ray or DVD player, media player, stereo, or radio.

As described herein, the mobile computing device 118 is distinguished from the PMSA system 110 in various aspects. For example, unlike the PMSA system 110, the mobile computing device 118 is not limited to playing media content, but configured for a wide range of functionalities in various situations and places. The mobile computing device 118 is capable of running a plurality of different software applications for different purposes. The mobile computing device 118 enables the user to freely start or stop activation of such individual software applications.

In at least some embodiments, the mobile computing device 118 includes a location-determining device 402, a display screen 404, a processing device 406, a memory device 408, a content output device 410, and a network access device 412. Other embodiments may include additional, different, or fewer components. For example, some embodiments may include a recording device such as a microphone or camera that operates to record audio or video content.

The location-determining device 402 is a device that determines the location of the mobile computing device 118. In some embodiments, the location-determining device 402 uses one or more of Global Positioning System (GPS) technology (which may receive GPS signals), Global Navigation Satellite System (GLONASS), cellular triangulation technology, network-based location identification technology, Wi-Fi positioning systems technology, and combinations thereof.

The display screen 404 is configured to display information. In addition, the display screen 404 is configured as a touch sensitive display and includes a user interface 420 for receiving a user input from a selector (e.g., a finger, stylus etc.) controlled by the user U. In some embodiments, therefore, the display screen 404 operates as both a display device and a user input device. The touch sensitive display screen 404 operates to detect inputs based on one or both of touches and near-touches. In some embodiments, the display screen 404 displays a graphical user interface for interacting with the mobile computing device 118. Other embodiments of the display screen 404 do not include a touch sensitive display screen. Some embodiments include a display device and one or more separate user interface devices. Further, some embodiments do not include a display device.

In some embodiments, the processing device 406 comprises one or more central processing units (CPU). In other embodiments, the processing device 406 additionally or alternatively includes one or more digital signal processors, field-programmable gate arrays, or other electronic circuits.

The memory device 408 operates to store data and instructions. In some embodiments, the memory device 408 stores instructions for a media playback engine 430. In some instances, memory device 408 stores a navigation engine 431. Navigation engine 431 can receive starting and ending locations, provide route options to the user, provide traffic data, provide trip duration and time of arrival estimates, to name a few example functionalities.

The memory device 408 may be configured similarly to the memory device 150 (FIG. 2) and, therefore, the description of the memory device 408 is omitted for brevity purposes.

The media playback engine 430 operates to play media content to the user U. As described herein, the media playback engine 430 is configured to communicate with the media delivery system 112 to receive one or more media content items (e.g., through the stream media 232). In other embodiments, the media playback engine 430 is configured to play media content that is locally stored in the mobile computing device 118.

In some embodiments, the media playback engine 430 operates to retrieve one or more media content items that are either locally stored in the mobile computing device 118 or remotely stored in the media delivery system 114. In some embodiments, the media playback engine 430 is configured to send a request to the media delivery system 114 for media content items and receive information about such media content items for playback.

Referring still to FIG. 6, the content output device 410 operates to output media content. In some embodiments, the content output device 410 generates media output 450 for the user U. In some embodiments, the content output device 410 includes one or more embedded speakers 452 which are incorporated in the mobile computing device 118. Therefore, the mobile computing device 118 can be used as a standalone device that generates the media output 450.

In addition, some embodiments of the mobile computing device 118 include an external speaker interface 454 as an alternative output of media content. The external speaker interface 454 is configured to connect the mobile computing device 118 to another system having one or more speakers, such as headphones, portal speaker assemblies, and the vehicle media playback system 114, so that the media output 450 is generated via the speakers of the other system external to the mobile computing device 118. Examples of the external speaker interface 454 include an audio output jack, a Bluetooth transmitter, a display panel, and a video output jack. Other embodiments are possible as well. For example, the external speaker interface 454 is configured to transmit a signal through the audio output jack or Bluetooth transmitter that can be used to reproduce an audio signal by a connected or paired device such as headphones or a speaker.

The network access device 412 operates to communicate with other computing devices over one or more networks, such as the network 116 and the in-vehicle wireless data communication 122. Examples of the network access device 412 include wired network interfaces and wireless network interfaces. Wireless network interfaces includes infrared, BLUETOOTH® wireless technology, 802.11a/b/g/n/ac, and cellular or other radio frequency interfaces in at least some possible embodiments.

FIG. 7 schematically illustrates an example embodiment of the PMSA system 110 of FIG. 1. In this example, the PMSA system 110 includes a personal media streaming appliance (PMSA) 500 and a docking device 502.

As described herein, the PMSA system 110 is sized to be relatively small so that the PMSA system 110 can be easily mounted to a structure (e.g., a dashboard or head unit) of the vehicle 80 where the user can conveniently manipulate the PMSA system 110. By way of example, the PMSA system 110 is configured to be smaller than a typical mobile computing device, such as a smartphone. Further, the PMSA 500 provides a simplified user interface for controlling playback of media content. For example, the PMSA 500 has a limited set of physical control elements, such as a single rotary knob and one or more physical buttons as described below, so that the user can easily control the PMSA system 110 in the vehicle 80 (FIG. 1).

The PMSA 500 is configured to include at least some of the devices of the PMSA system 110 as illustrated with reference to FIG. 2. In some embodiments, the PMSA 500 includes all of the devices of the PMSA system 110 as illustrated in FIG. 2.

As illustrated also in FIG. 2, some embodiments of the PMSA 500 includes the user input device 130 that includes the manual input device 160 and the sound detection device 162. Some embodiments of the manual input device 160 include a control knob 510 and one or more physical buttons 512.

In some embodiments, the control knob 510 is configured to be maneuverable in multiple ways. For example, the control knob 510 provides a plurality of regions on a knob face 514 that are independently depressible upon receiving a user's pressing action against the knob face 514. In the illustrated example, the control knob 510 has five regions 516 (e.g., up, down, left, right, and middle) that are separately depressible. At least some of the regions 516 are configured to receive inputs of different user commands (e.g., requests or instructions).

In other embodiments, the control knob 510 is configured to be manipulated in different ways, such as tilting in multiple directions or sliding in multiple directions.

In addition, the control knob 510 is configured to be rotatable. For example, the user can hold the control knob 510 and rotate with respect to a body 520 of the PMSA 500. The control knob 510 can be rotatable in both directions 522 (e.g., clockwise and counterclockwise). In other embodiments, the control knob 510 is configured to rotate in only one direction.

The control knob 510 is used to receive user inputs for controlling playback of media content. In addition or alternatively, the control knob 510 can be used to receive user inputs for other purposes or functions.

The physical buttons 512 are configured to be depressed upon receiving a user's pressing action against the physical buttons 512. In the illustrated example, the PMSA 500 has four physical buttons 512A-512D. In some embodiments, each of the physical buttons 512 is configured to receive a single user command. In other embodiments, at least one of the physical buttons 512 is configured to receive multiple user commands.

In some embodiments, the physical buttons 512 are used as buttons that are preset to be associated with particular media content, thereby facilitating playback of such media content. In these embodiments, the physical buttons 512 are also referred to as preset buttons 512.

In addition, the PMSA 500 also includes the display screen 132. In some embodiments, the display screen 132 is arranged at the knob face 514 of the control knob 510. As described herein, in some embodiments, the display screen 132 does not include a touch sensitive display screen, and is configured as a display device only. In other embodiments, however, the display screen 132 can be configured to be touch sensitive and receive a user input through the display screen 132 as well.

Referring still to FIG. 7, the docking device 502 is configured to mount the PMSA 500 to a structure of the vehicle 80. The docking device 502 is configured to removably mount the PMSA 500 thereto. The docking device 502 is further configured to attach to a structure of the vehicle 80 (FIG. 1) so that the PMSA 500 is positioned at the structure of the vehicle 80.

In some embodiments, an interface between the PMSA 500 and the docking device 502 is configured to prevent the PMSA 500 from rotating relative to the docking device 502 when the control knob 510 is manipulated by a user. For example, the docking device 502 has a portion (e.g., a front portion of the docking device 502) configured to interlock a corresponding portion of the PMSA 500 (e.g., a rear portion of the PMSA 500) when the PMSA 500 is mounted to the docking device 502 such that the portion of the docking device 502 and the corresponding portion of the PMSA 500 form the interface therebetween.

In addition or alternatively, the PMSA 500 and the docking device 502 include magnetic materials at the interface therebetween so that the PMSA 500 and the docking device 502 are magnetically coupled to each other.

In some embodiments, the docking device 502 includes one or more electrical contacts 530 that are electrically connected to corresponding electrical contacts (not shown in FIG. 7) of the PMSA 500 when the PMSA 500 is mounted to the docking device 502. Such electrical connection between the PMSA 500 and the docking device 502 is provided for various functions.

First, as described herein, the PMSA 500 does not include a battery sufficient for a prolonged use without an external power supply. In some embodiments, the PMSA 500 is primarily powered by a vehicle power supply 540. In some embodiments, the docking device 502 has a power receiving line 544 for connection to the vehicle power supply 540. For example, the power receiving line 544 extends from the docking device 502 and has a power connector 546 at a free end that is configured to mate with a vehicle power outlet 542 (e.g., a 12V auxiliary power outlet) of the vehicle power supply 540. As such, the docking device 502 receives electric power from the vehicle power supply 540 via the power receiving line 544, and the electrical connection between the PMSA 500 and the docking device 502 is configured to deliver electric power from the docking device 502 to the PMSA 500.

Second, as described herein, the PMSA 500 does not have a speaker and is designed to transmit media content signals to the vehicle media playback system 114 so that the media content is played through the vehicle media playback system 114. In some embodiments, the docking device 502 includes a media content output line 550 (also referred to herein as a media content output cable) (e.g., an auxiliary (AUX) output) configured to connect with the vehicle media playback input connector 340 (e.g., an auxiliary (AUX) port) of the vehicle media playback system 114. The docking device 502 is configured to receive media content signals from the PMSA 500 via the electrical connection between the PMSA 500 and the docking device 502, and transmit the signals to the vehicle media playback system 114 via the media content output line 550. In the illustrated embodiment, the power receiving line 544 and the media content output line 550 are combined to be a single line extending from the docking device 502 until the power connector 546, and the media content output line 550 further extends (or branches out) from the power connector 546 and terminates at a media output connector 552. The media output connector 552 is configured to connect to the vehicle media playback input connector 340 of the vehicle media playback system 114. In other embodiments, the media content output line 550 and the power receiving line 544 extend separately from the docking device 502.

In other embodiments, one or more of the power receiving line 544 and the media content output line 550 are directly connected to, and extend from, the PMSA 500 so that electric power is directly supplied to the PMSA 500 without the docking device 502 involved, and that the media content is directly transmitted to the vehicle media playback system 114 without passing through the docking device 502.

Third, the electrical connection between the PMSA 500 and the docking device 502 can be used to detect connection between the PMSA 500 and the docking device 502.

FIG. 8 illustrates an example method 600 for generating customized voice communication for a media playback device user. The example method 600 includes receiving an input (operation 602), determining verbosity (operation 610), generating a communication (operation 680), and providing a voice communication (operation 690). The operations of example method 600 can be performed, for example, using example system 100 discussed with reference to FIGS. 1-7, above.

Generally, example method 600 aids user navigation of media content catalogs playing on example personal media streaming appliances. Example method 600 can also aid user device navigation, for example by aiding configuration of appliance settings and/or other configuration workflows, and by providing notifications regarding appliance functionality.

As an example, performing aspects of example method 600 results in customized voice communications providing a user with information regarding media track playback, typically of a currently-playing media track. An amount of detail provided to a user, as well as the frequency of voice communications, can be adjusted based on user preferences, user history, traffic conditions, user emotion, and other factors discussed in greater detail below. Thus, for the same input (e.g., a new playlist and a new track is queued), a user can receive different voice feedback depending upon the time of the day, the location, and/or other peripheral factors.

As another example, performing aspects of example method 600 results in customized voice communications providing a user with information regarding device navigation. For instance, if a user changes a view on a display of the streaming appliance from “Now Playing” to “Settings”, voice communication can provide a notification of, for example, “Settings” or “Settings Menu.” As another instance, if a user toggles a microphone from On to Off, or Off to On, then voice communication can provide a notification of, for example, “Microphone On,” or “Microphone On, ready to receive commands.” At the same time, a view on a display of the streaming appliance can provide visual notification showing toggling between the microphone being on and the microphone being off.

Over time, the system 100 can adapt voice communications to a specific user, even without additional input from the user. Additionally, example method 600 obviates a need for a user to access a third party application to identify data about a currently-playing media track. An example third party application is of the type that records audio and, using one or more searching algorithms, identifies an artist and song title of the audio.

Example method 600 begins by receiving an input (operation 602). Generally, an input is some type of signal, message, communication, etc., that results in performance of some or all operations of example method 600. An example input is a media change indication, where the media change indication is an signal or message that media playing has changed or is about to change. For instance, an indication that a new track, a new playlist, and/or a new genre has been queued or is playing can be inputs. The input can be received from a server in communication with the personal media streaming device.

User communication can also be input received during operation 602. An example user communication is a user query received by the personal media streaming appliance. Example user queries include, without limitation, requesting a song title, an artist name, a playlist or radio station name, a genre, a number of tracks in a playlist, a remaining time of a playlist or song, a number of tracks remaining in a playlist.

When user communication is received (operation 602), example method 600 includes one or more voice processing operations. The one or more voice processing operations include converting received audio from the user to machine-readable text. The one or more voice processing operations can also include parsing operations to determine user intent and/or identify a user request.

After receiving an input (operation 602), verbosity is determined (operation 610). Verbosity, as used herein, relates to a level of detail in voice feedback/voice notification provided by the personal media streaming appliance. Determining verbosity (operation 610), accordingly, can include determining whether to provide feedback or notification, as well as how much, and what type of, information to include in feedback or notification.

Determining verbosity (operation 610) includes obtaining and/or analyzing various signals or factors. These signals and/or factors relate, generally, to user-specific data and data peripheral to the user. User-specific data can include user settings and/or user history. Examples of user-specific data and real-time data are discussed in greater detail below.

Referring now to FIG. 9, additional detail regarding determining verbosity (operation 610) is shown. One or more operations of determining verbosity (operation 610) can be performed in parallel, or in a different order than that shown.

Determining verbosity (operation 610) can include determining whether user settings are available (operation 612). If there are no user settings available, then a questionnaire process (method 700) can be performed, described in greater detail with reference to FIG. 10. In some instances, if no user settings are available, default settings can be used.

Next, user-specific settings are determined (operation 614). User-specific settings relate to a user's preferred verbosity in voice feedback/notifications. User-specific settings can be stored locally or accessed on a backend service. In some instances, user-specific settings are obtained through a questionnaire process such as that shown in FIG. 10. In some instances, user-specific settings are obtained through a user's interaction with an application on a computing device, such as an application on a mobile device or software running on a desktop computing device.

Example user-specific settings include whether the user would like to receive notification of a song's title, an artist's name, and/or an album name. Another example user-specific setting is whether the user is interested in knowing playlist or radio station names. Another example user-specific setting is whether the user would like to know the name of a new genre when the genre changes. Another example user-specific setting is whether the user is interested in one or more aspects of a playlist, such as a number of songs in the playlist and a number of minutes of music in the playlist. Another example user-specific setting is whether the user would like to be informed of various attributes of a playlist after a predetermined amount of time. For instance, after listening for 30 minutes of the same playlist, a voice notification is provided that includes the playlist name, the number of tracks remaining in the playlist, and a number of minutes left until the end of the playlist.

User history is also determined (operation 616). Generally, user history includes user actions and requests received previously. By accessing user history, the verbosity level can adjust depending upon user habits, even without input from the user. User history can include various attributes of the user's preferred levels of interactivity. Interactivity can be categorized in various ways, such as by time of day, day of the week, and duration of drive.

An example component of a user history is that a user typically does not interact with the personal media streaming appliance during a morning commute. Or, more generally, a user typically does not interact with the personal media streaming appliance during drives less than a given duration, such as 15 minutes.

Peripheral data are also obtained (operation 618). Generally, peripheral data relate to real-time aspects of the user and the user's environment. Real-time, as used herein, includes the time example method 600 is performed but also, more broadly, to the current trip or user session. In some instances, peripheral data is obtained by accessing one or more backend services or third party applications.

Peripheral data can relate to the user's current status. For instance, peripheral data can include a level of interactivity of the user during the current session. As another example, peripheral data can include a detected emotion of the user, where the emotion is determined based on music choice, level of interaction, and/or tone of voice. Depending on the user's detected emotion, responses or notifications may be longer or shorter.

Peripheral data can also relate to the user's environment. In some instances, peripheral data can be GPS or GPS-related data obtained from map and/or navigational services or applications. As one example, current traffic conditions at the user's location can dictate a level of verbosity. As another example, a user's navigational route can be accessed from a third party navigational application. The navigational route can include data about trip duration and whether the user will be in a new city. In such a situation, a user might wish to focus on driving and the music is there for background noise. Voice notifications in such a circumstance may distract the user from driving.

Track metadata is also obtained (operation 620). Obtaining track metadata can include determining whether the track metadata is available locally. If it is stored locally, operation 620 includes retrieving the locally-stored metadata. If track metadata is not available locally, operation 620 can include communicating with a backend service to obtain the track metadata.

Track metadata includes various attributes of the currently-playing track. Example track metadata includes artist name, song title, and album name. Track metadata can also include genre or sub-genre information. If a track is part of a playlist or radio station, track metadata can also include a playlist name or a radio station name.

At some point during operation 610, a determination is made whether text to speech should play (operation 624). Determining whether text to speech should play (operation 624) can include analyzing one or more of the user-specific settings, the user history, and the peripheral data to determine whether text to speech should play. If it is determined that text to speech should play, then operation 610 proceeds, typically to generate a communication (operation 680) responding to a user query or providing a notification. If it is determined that text to speech should not play, then media is played without text to speech (operation 626).

Referring again to FIG. 8, after determining verbosity (operation 610), a communication is generated (operation 680). “Communication” is used broadly and includes feedback, notifications, and the like. Generating a communication (operation 680) includes analyzing verbosity data generated during operation 610. In some instances, analyzing verbosity data includes applying weights to the various data obtained during operation 610. Based on the analysis, data that should be included in the voice feedback/notification are determined.

Generating a communication (operation 680) can also include obtaining a voice communication format. Generally, a voice communication format is a template for presenting data to the user. Then, track metadata are inputted into the voice communication format. Typically, voice communication formats are specific to the given communication and based on the analysis of verbosity data.

An example voice communication format is “This is (Song Name) by (Artist Name).” During communication generation (operation 680), the song name and artist name are retrieved and inserted into the voice communication format. Obtaining a voice communication format can include determining whether a voice communication format is stored locally. If a voice communication format is not stored locally, then obtaining a voice communication format includes communicating with a backend service to obtain the voice communication format.

After the communication is generated (operation 680), a voice communication is provided to the user (operation 690). Providing the voice communication (operation 690) includes using text to speech operations to convert data generated during operation 680 to voice audio. Providing the voice communication (operation 690) also includes transmitting the voice audio to an audio system in communication with the personal media streaming appliance.

In some embodiments, a speech synthesizer is used to generate voice audio. The speech synthesizer is a hardware or software component of the personal media streaming appliance that generates synthesized speech based on an input. The speech synthesizer generates audio (e.g., speech waveforms) that mimics human speech from input text and provides the generated audio as output.

In an example, the speech synthesizer provides customizable pronunciation. For instance, in addition to receiving input text from which the output audio is generated, the speech synthesizer also receives pronunciation input. The pronunciation input includes one or more parameters that modify the pronunciation of the audio provided as output by the speech synthesizer. The pronunciation input affects pronunciation in a variety of ways. For instance, the speech synthesizer is customizable according to the pronunciation of individual phonemes, as well as syllables and other parts of speech. The modification is also able to affect prosody of the produced speech, including but not limited to variations in duration, pitch, timbre, volume, or other qualities of components of the produced speech. The speech synthesizer is able to produce speech using a variety of different technologies, including but not limited to the use of Markov models and trained neural networks.

Providing the voice communication (operation 690) can also include coordinating voice communication playback with playback of a media track. For instance, when the voice communication is related to a new track being queued, voice communication playback can be prior to playback of the media track or concurrent with a start of playback, such that the voice communication is played over the media track. As another example, if the voice communication is related to a user query, voice communication playback can include pausing playback of the media track to provide the voice communication.

Providing the voice communication (operation 690) can also include providing an audio cue. The audio cue can be provided instead of, or in addition to, voice communication. An audio cue is a sound or series of sounds, usually devoid of spoken words. An audio cue is also typically of a short duration, for example, less than 3 seconds in duration. Audio cues can be stored as media files for playback.

Example audio cues include “listening,” “error,” “play,” “pause,” “previous,” and “next.” Each audio cue has a different sound or series of sounds (or notes). A listening audio cue can be played when the streaming appliance detects a wakeword. An error audio cue can be played when the streaming appliance encounters an error. A play audio cue can be played when a user presses a play button (or button associated with play action) on the streaming appliance and/or uses a voice command to play or resume playback. A pause audio cue can be played when a user presses a pause button (or button associated with pause, stop, and/or mute action) and/or uses a voice command to pause, stop, and/or mute playback. A previous audio cue and a next audio cue can be played when a user switches to a previous audio track or a next audio track, respectively, and/or uses a voice command to go to a previous audio track or a next audio track, respectively.

FIG. 10 shows an example method 700 for providing a user questionnaire. The example method 700 includes obtaining a questionnaire (operation 702), providing an audio questionnaire (operation 704), receiving user responses to the audio questionnaire (operation 706), and setting characteristics (operation 708). Broadly speaking, example method 700 generates user preferences relating to preferred verbosity levels in voice feedback/notifications. Typically, example method 700 is performed after a determination that user settings are not available locally or on remote storage. A personal media streaming appliance system, such as the example embodiments described above, provides the audio questionnaire, receives spoken responses, and processes those responses. Similar questions or settings as those provided in example method 700 can be provided to a user in a graphical user interface accessible on a mobile device or other computing device.

Example method 700 begins by obtaining a questionnaire (operation 702). The questionnaire includes one or more questions relating to user preferences. For instance, a questionnaire can ask whether the user would like to receive notification of a song's title, an artist's name, and/or an album name. Another example is whether the user is interested in knowing playlist or radio station names. Another example is whether the user would like to know the name of a new genre when the genre changes. Another example is whether the user is interested in one or more aspects of a playlist, such as a number of songs in the playlist and a number of minutes of music in the playlist. Another example is whether the user would like to be informed of various attributes of a playlist after a predetermined amount of time.

After obtaining the questionnaire (operation 702), the audio questionnaire is provided to the user (operation 704). Providing the audio questionnaire (operation 704) typically includes text to speech processing operations. After each question provided (operation 704), user responses are received (operation 706). Receiving user responses (operation 706) includes speech to machine-readable text processing operations.

After each question in the questionnaire has been provided to the user (operation 704), and after receiving user responses to the questionnaire (operation 706), user characteristics are determined (operation 708). Setting user characteristics (operation 708) can include generating a user settings file, which can be stored locally or remotely. Generally, a user settings file includes user preferences determined based on responses to the questionnaire, where the preferences relate to what type of, and how much, information the user would like during voice feedback/voice notification.

Additional Example Embodiments

In a first example, a user provides input to an embodiment of the example personal media streaming appliance described above. The input is a new track request and is received during playback of a digital media file. A medium verbosity level is determined based on an obtained user verbosity level and obtained peripheral data. More specifically, the user data indicates that the user prefers to receive brief notifications about playback actions. Obtained peripheral data indicates that there are no conditions indicating that the verbosity level should be lowered. A voice communication format for medium verbosity level is obtained. Then a voice communication track is generated to communicate “Skipping to the next track.” Using text to speech processing operations, the example personal media streaming appliance transmits digital audio with a voice stating “Skipping to the next track.”

In a second example, a user provides input to an embodiment of the example personal media streaming appliance described above. The input is a new track request. A medium high verbosity level is determined based on an obtained user verbosity level and obtained peripheral data. More specifically, the obtained user verbosity level indicates the user prefers a high level of detail regarding playback actions. Some peripheral data is neutral, indicating no adjustment to the verbosity level. Other obtained peripheral data indicates that, at the specific time and day of the week, the user is less communicative and prefers less information. Based on the user verbosity level and peripheral data, the verbosity level is determined to be a medium-high level. A voice communication format for medium verbosity level is obtained, where the voice communication format provides “The next song up is (song title) by (artist name).” Metadata of a media track that is next on the queue is obtained, where the metadata includes the song title and the artist name. Then, using text to speech processing operations, the example personal media streaming appliance transmits digital audio with a voice stating “The next song up is Passionfruit by Drake” along with a next track audio cue.

In a third example, a user provides input to an embodiment of the example personal media streaming appliance described above. The input is a spoken user inquiry, “What is this song?” received during playback of a digital media file. A high verbosity level is determined based on an obtained user verbosity level and obtained peripheral data. More specifically, the obtained user verbosity level indicates the user prefers a high level of detail regarding playback actions. Additionally, none of the obtained peripheral data indicates that the verbosity level should be adjusted to be different than the user verbosity level. A voice communication format for medium verbosity level is obtained, where the voice communication format provides “The currently playing song is (song title) by (artist name) released in (year), and you are listening to (context name).” Metadata of the currently playing media track is obtained, where the metadata includes the song title, the artist name, the release year, and context name. Then, using text to speech processing operations, the example personal media streaming appliance transmits digital audio with a voice stating “The currently playing song is Passionfruit by Drake released in 2017, and you are listening to the Are and Be playlist.”

In a fourth example, an input is received regarding queuing of a new media track during playback of a different media track. The input indicates that the new media track is about to play and/or playback has begun. A low verbosity level is determined based on an obtained user verbosity level and indicates that the user prefers a low level of detail regarding playback actions. Peripheral data indicate that the user is on a short commute. Based on the low verbosity level from the user verbosity level as well as the peripheral data, the system determines that no voice communication will be provided to the user, and the system plays a next track audio cue.

In a fifth example, a user provides input to an embodiment of the example personal media streaming appliance described above. The input is a spoken user inquiry, “What is this song?” received during playback of a digital media file. The user has default verbosity settings. Default verbosity settings in this example indicate the response to that input is “This is (song name) by (artist name).” Metadata of the currently playing media track is obtained, where the metadata includes the song name and the artist name. Then, using text to speech processing operations, the example personal media streaming appliance transmits digital audio with a voice stating “The currently playing song is Passionfruit by Drake.” The user responds with another input of “And when was it released?” When subsequent tracks are playing, the user again asks “And when was it released?” Then the default verbosity settings are updated for this user to reflect the user's response history. Then, in response to future inquiries of “What is this song?”, the response to that input is modified to be “This is (song name) by (artist name) released in (year).”

Where user data is used, it can be handled according to a defined user privacy policy and can be used to the extent allowed by the user. Where the data of other users is used, it can be handled in an anonymized matter so the user does not learn of the details of other users generally or specifically.

The various examples and teachings described above are provided by way of illustration only and should not be construed to limit the scope of the present disclosure. Those skilled in the art will readily recognize various modifications and changes that may be made without following the examples and applications illustrated and described herein, and without departing from the true spirit and scope of the present disclosure. 

1. A method for generating customized voice communication for a media playback device user, the method comprising: receiving an input, wherein the input is one of: a user query or a media track change indication; wherein receiving the input occurs before or during playback of the media track by a media playback device; and wherein the media track is currently playing or next in a media track queue; determining a user verbosity level; obtaining metadata of a media track; obtaining peripheral data; using the user verbosity level, the metadata of the media track, and the peripheral data, generating a voice communication track; and providing the voice communication track to the media playback device user.
 2. The method according to claim 1, wherein determining the user verbosity level includes analyzing at least one of: user verbosity settings and user verbosity history.
 3. The method according to claims 1, wherein obtaining peripheral data includes identifying current traffic data for a location of the media playback device user.
 4. The method according to claim 1, wherein obtaining peripheral data includes at least one of: determining route data, determining a user emotion, and determining a current user interactivity level.
 5. The method according to claim 1, wherein obtaining peripheral data includes: identifying a current day and a current time; and determining historic user data for the current day and the current time.
 6. The method according to claim 1, wherein the metadata includes at least one of: artist name, song name, album name, genre, playlist, and radio station name.
 7. The method according to claim 1, further comprising: generating a voice assistant setting audio file that includes an audible questionnaire for enabling the media playback device user to set up characteristics of the information included in the first audio file and the second audio file; receiving a user voice command in response to the audible questionnaire; and setting the characteristics of the information included in the first audio file and the second audio file based on the voice command.
 8. The method according to claim 8, wherein the characteristics of the information included in the first audio file and the second audio file include a level of details about tracks being queued.
 9. A media content playback system comprising: one or more processing devices; and a memory device coupled to the one or more processing devices and comprising instructions thereon that, when executed by the one or more processing devices, cause the one or more processing devices to: receive an input, wherein the input is one of: a user query or a media track change indication; wherein receiving the input occurs before or during playback of the media track by a media playback device; and wherein the media track is currently playing or next in a media track queue; determine a user verbosity level; obtain metadata of a media track; obtain peripheral data; use the user verbosity level, the metadata of the media track, and the peripheral data, generating a voice communication track; and provide the voice communication track to the media playback device user.
 10. The system according to claim 9, wherein determining the user verbosity level includes analyzing at least one of: user verbosity settings and user verbosity history; and wherein obtaining peripheral data includes identifying current traffic data for a location of the media playback device user.
 11. The system according to claim 9, wherein obtaining peripheral data includes: identifying a current day and a current time; and determining historic user data for the current day and the current time.
 12. The system according to claim 9, wherein the metadata includes at least one of: artist name, song name, album name, genre, playlist, and radio station name.
 13. The system according to claim 9, wherein obtaining peripheral data includes at least one of: determining route data, determining a user emotion, and determining a current user interactivity level.
 14. The system according to claim 9, further comprising: generating a voice assistant setting audio file that includes an audible questionnaire for enabling the media playback device user to set up characteristics of the information included in the first audio file and the second audio file; receiving a user's voice command in response to the audible questionnaire; and setting the characteristics of the information included in the first audio file and the second audio file based on the voice command.
 15. The system according to claim 14, wherein the characteristics of the information included in the first audio file and the second audio file include a level of details about tracks being queued. 